Research
My research lies at the intersection of Quantum Computing, Cryptography, and Secure Delegated Computing. My primary goal is to develop practical and resource-efficient protocols that enable secure quantum computation on remote quantum computers while preserving the privacy of users’ data, algorithms, and computation.
Research Interests
Current Research
Secure Delegated Quantum Computing
My doctoral research focuses on designing universal protocols for secure delegated quantum computation using arbitrary rotation gates. The objective is to reduce computational and communication overhead while maintaining information-theoretic security.
Current directions include:
- Universal Blind Quantum Computation
- Recursive Arbitrary Rotation Gates
- Quantum Homomorphic Encryption
- Secure Delegated Quantum Computing
- Resource Optimization
- Blind Quantum Circuit Compilation
Research Contributions
Universal Blind Quantum Computation
Development of recursive techniques for implementing arbitrary rotation gates in blind quantum computation with significantly improved resource efficiency.
BlindTranspiler
Development of BlindTranspiler, an open-source software framework for converting standard Qiskit quantum circuits into blind quantum circuits supporting multiple secure delegated quantum computation protocols.
Research Timeline
| Year | Milestone |
|---|---|
| 2022 | Started Ph.D. at Banaras Hindu University |
| 2022 | First publication on Blind Quantum Computation |
| 2024 | Quantum Searchable Encryption and NISQ resource estimation |
| 2025 | Research on arbitrary rotation gates and encrypted quantum computation |
| 2026 | Universal Blind Quantum Computation and BlindTranspiler software |
Research Collaborations
I am interested in collaborations in the following areas:
- Blind Quantum Computation
- Quantum Cryptography
- Quantum Software Engineering
- Secure Delegated Quantum Computing
- Quantum Algorithms
- Quantum Machine Learning
- Quantum Networks
Researchers and students interested in collaboration are welcome to contact me.
Research Vision
Future fault-tolerant quantum computers will likely be accessed through cloud services. My long-term research vision is to make cloud quantum computing private, secure, and practical by developing efficient cryptographic protocols that protect users’ computations without sacrificing performance.
The combination of Blind Quantum Computation, Quantum Homomorphic Encryption, and Quantum Cryptography has the potential to become the foundation of secure quantum cloud computing.